dividesthe undergraduate education into the two phases of general education and upper division/ CEcore education. The CE program at NTU is well balanced with a requirement of six monthsindustrial training before graduation. At the UF, CE students are required to take EngineeringIntern Test (EIT) before graduation. Page 7.111.12. Course requirements in the Department of Civil and Environmental Engineering at NTUand in the Department of Civil and Coastal Engineering at the UFThe CE curriculum at the UF toward a Bachelor of Science degree provides a depth ofknowledge and enable a graduate is able to pursue a career in design, construction and
emphasis on cellular and molecular engineering, we believe ourbioengineering undergraduate students will obtain the necessary training to become leaders inthis rapidly emerging field of the biomedical/biotechnology industry.IntroductionThe Bioengineering undergraduate program at Rice University is designed to prepare studentsfor careers in rapidly developing areas of biomedical engineering and bioprocessing. Theundergraduate educational program in Bioengineering (BIOE) has the goal of producing a newtype of biomedical engineer, fully conversant with modern biochemistry and cell and molecularbiology. This type of biomedical engineer will translate bench-scale scientific advances inbiological sciences into cost-effective new products and processes
with the underlying science increases the students’ awareness of or interest in thepursuit of technological careers. We discuss our approach to planning and implementation ofthis assessment process. Page 6.541.2Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright© 2001, American Society for Engineering EducationIntroductionHigh school students frequently fail to connect the basic scientific principles learned in theircourse work with the technological marvels that many of them make use of daily. The principlesbehind such items as portable phones and pagers, personal data
their technical endeavors, they, like their U.S.counterparts, could also benefit by from international and cultural exchanges.GoalsOne goal of this project was to provide both EET and MtF students with an internationalexperience while avoiding the expenses and time required for travel. A second goal was toimprove both groups' ability to communicate using technical English. In his text on writing to thescientific community, Day exemplifies this goal stating that clear certain meaning should applyto not just the peers of the author, but also to students just embarking on their careers, toscientists reading outside their own narrow discipline, and especially to those readers (themajority of readers today) whose native language is other than
language becomes a positiveimpact in building one’s career. In major projects around the world, multinational groups ofengineers work together. In the United States, foreign students will have opportunities to learnand practice English both inside and outside the classroom. This situation will force them toimprove their language skill rapidly. American students will also have an opportunity to learn andpractice foreign languages with international students outside classroom.Students who have the opportunity to work in a team project combining with students from severalcountries in their graduate courses will have a better understanding of the role of teamwork in theirfuture international work projects. For instance, students will face problems
explore other job opportunities in engineering.2. Learned! Had a blast!3. We had a new and wonderful experience. We had fun, made a few friends, and experienced something we built work.4. To all the participants in this program ... hope that you take this info back to your school for everyone to see.5. Open my mind to a new career in engineering. Learned new and interesting things. Found out that a lot of failure goes into creating new things.Given that we have returning teacher applicants each year, we take that as an indication that theprogram is reaching the target audience and helping the teachers in their mission.The program also interacts with the regular undergraduate curriculum in the
- sity. She obtained a B.S. in mathematics from Spelman College, a M.S. in industrial engineering from the University of Alabama, and a Ph.D. in Leadership and Policy Studies from Peabody College of Vanderbilt University. Teaching interests relate to the professional development of graduate engineering students and to leadership, policy, and change in science, technology, engineering, and mathematics education. Pri- mary research projects explore the preparation of engineering doctoral students for careers in academia and industry and the development of engineering education assessment tools. She is a NSF Faculty Early Career (CAREER) award winner and is a recipient of a Presidential Early Career Award for Scientists and
and research, motivation, and new and junior faculty development. She also studies gender issues in the STEM disciplines.Susan M. Lord, University of San Diego Susan M. Lord received a B.S. from Cornell University and the M.S. and Ph.D. from Stanford Univer- sity. She is currently Professor and Coordinator of Electrical Engineering at the University of San Diego. Her teaching and research interests include electronics, optoelectronics, materials science, first year engi- neering courses, feminist and liberative pedagogies, and student autonomy. Dr. Lord served as General Co-Chair of the 2006 Frontiers in Education Conference. She has been awarded NSF CAREER and ILI grants. She is currently working on a
and research, motivation, and new and junior faculty development. She also studies gender issues in the STEM disciplines.Dr. Susan M. Lord, University of San Diego Susan M. Lord received a B.S. from Cornell University and the M.S. and Ph.D. from Stanford Univer- sity. She is currently Professor and Coordinator of Electrical Engineering at the University of San Diego. Her teaching and research interests include electronics, optoelectronics, materials science, first year engi- neering courses, feminist and liberative pedagogies, and student autonomy. Dr. Lord served as General Co-Chair of the 2006 Frontiers in Education Conference. She has been awarded NSF CAREER and ILI grants. She is currently working on a
todemonstrate students the link between the scientific principles and their engineering applications.The course is team taught by faculty from various engineering and technology disciplines toprovide students experience related to multiple fields to help them identify their career discipline.Students work in groups to build devices and test them. Student evaluations indicate a marked increase in learning and comprehension ofscientific principles and engineering concepts. The paper will discuss the design anddevelopment effort that have gone into creating the PBL kits that were developed related toMarine and Maritime industry. It will also discuss implementation within the course and resultsfrom pre and post surveys from students.1. Research on
attributes. The learningoutcomes for the first work term are for students to be able to: A. Demonstrate their progress with developing four graduate attributes B. Identify and describe the aspects of their work term that contributed to, and detracted from, their progress with the selected attributes C. Summarize how the attributes connect with: 1. the EIT program 2. logbook keeping Page 22.815.3 3. performance feedback 4. career planningTo achieve these goals, students create a ‘learning portfolio’ during each work term thatdemonstrates their learning accomplishments through a combination
Abstract A two semester senior level capstone design course has been restructured (Senior Design I and II) in response to the outcomes defined by the industry to assure job ready engineers and outcomes set by the academicians to assure math and science based fundamentals. The restructuring purpose was also to align the course outcomes with the college mission of graduating „Career- Ready‟ engineers. The department offers programs in civil engineering and construction engineering. Both program curriculums require a two semester course on a comprehensive design application. The courses are designed to meet specific ABET outcomes. Also to meet an additional program outcome of: students are able to explain
in Electrical Engineering from Morgan State University and is presently working on his Doctorate Degree in Math Education. Mr. Martin has worked at NASA Goddard Space Flight Center and the Nuclear Regulatory Commission (NRC) as a Power System Engineer. He has taught high school Mathematics in the Baltimore City Public School System as well as Mathematics at several colleges and universities. Just before coming to BDJ, Mr. Martin worked for the Maryland State Department of Education as a Regional Coordinator for Career and Technology Education, where he assisted many local school systems with their implementation and management of pre-engineering and technology programs.Maisha Drew, Innovative STEM Foundation
AC 2011-934: IPHONE ENTREPRENEURSHIP CLASS: BRIDGING THEGAP BETWEEN ENGINEERING AND BUSINESS TO CREATE AN EN-TREPRENEURIAL CULTUREGerald Nelson, Mississippi State University Gerald Nelson is an Industrial Engineering graduate of Mississippi State University who later went on to receive his MBA. Nelson’s career includes former positions as Plant Manager, Trinity Industries; Presi- dent and Chief Operating Officer of the Wear Resistance Group of Thermadyne Industries, Inc.; Executive Vice President of Operations, Viasystems Group, Inc.; and Chief Operating Officer of Deka Medical, Inc. In 2006, Nelson assumed responsibility as Director for the Thad Cochran Endowment for Entrepreneur- ship, which fosters funds and
, online content with interactive animations, hands onactivities, an online mathematical simulation and culminates with the students designing,constructing, testing, evaluating and reporting on their design solution. The program bridgesmath and science content with engineering to better prepare students to pursue engineering ortechnology related careers. Between 2003 and 2007 there has been a decline of enrollments inengineering programs1, in addition women and minorities are underrepresented in the scienceand engineering workforce2, so programs with the same goals as INSPIRES help expose studentsto careers that involve studying science or engineering. The INSPIRES curriculum is designedto specifically target three Standards for Technology
AC 2011-110: UNDERGRADUATE DESIGN: DESIGN OF A REUSABLESTIR FRICTION WELDING TOOLFredrick A. Nitterright, Pennsylvania State Erie, The Behrend College Mr. Fred Nitterright is a lecturer in engineering at Penn State Erie, The Behrend College. He received the A. A. S. in Mechanical Drafting and Design in 1989 from Westmoreland County Community College, the B. S. in Mechanical Engineering Technology in 1991 from Penn State Erie, The Behrend College, and the M. S. in Manufacturing Systems Engineering from the University of Pittsburgh in 1998. Mr. Nitterright is a member of the American Society for Engineering Education (ASEE). Fred Nitterright began his career as a machinist at Elliott Support Services in Donora
requirements to obtain an associates degree?” Determining the ability toanswer this question is central to determining the ability to answer several broad follow-onquestions that will allow us to more closely gauge the preparation and success of communitycollege students in baccalaureate engineering programs. For example, • Do engineering students who begin at community colleges perform as well, better than, or not as well as other students? What factors influence their success rate? • How many community college graduates are admitted to Research I Institutions? • How many obtain graduate degrees? • What career paths do students with A.S. degrees in e/et follow?Two critical steps in this project are (1) examining enrollments of
fosters thedevelopment of engineering knowledge, skills, and achievement, both within college and inlaunching a successful career as an engineer. We define a successful engineering career as onethat is beneficial to the young person and – through his or her skills, creativity andentrepreneurship – to society. While it is of course the case that students need to developtechnical fluency in science, engineering, and math, as well as the ability to approach problemsfrom a multidisciplinary perspective, there is reason to believe that these science/technologyskills are not sufficient to foster engineering achievement in school and in life. The Personalfactors, such as motivation, orientation towards teamwork, planning, persistence and even
groups. This is a pure indication that fewer women and minoritychoose careers in engineering and technology. Women have been traditionally underrepresentedin science and engineering.1,2 Ethnic minorities are also traditionally underrepresented in scienceand engineering. According to the US Code – Section 1067: Congressional Findings, “As theNation’s population becomes more diverse, it is important that the educational and training needsof all Americans are met; underrepresentation of minorities in science and technological fieldsdiminishes our Nation’s competitiveness by impairing the quantity of well prepared scientists,engineers, and technical experts in these fields.”3 In the book Talking About Leaving, WhyUndergraduates Leave the Sciences,4
using a 3D printer to“print” the 3D models). In this way, these advanced students are more challenged and moreinterested in the course.On the other hand, the sections with low assessment test scores spend more time reviewingessential fundamental mathematical skills. These less advanced students are not “left behind”during class lectures, and this mathematical review strengthens their mathematics to help them infuture science and engineering courses.Additionally, several times during the semester the students in all sections have a large commonclass together (in an auditorium) for special topics such as invited speakers, career development,and resume writing. At the end of the semester, all of the students take the math skill assessmentexam
AC 2012-5150: CREATING A WATER AND WASTEWATER EDUCATIONALPROGRAM WITH INCORPORATED EXPERIENTIAL TRAININGMr. Joseph Lee Gutenson, Western Kentucky University Joseph Gutenson is an Environmental Support Specialist with the Center for Water Resource Studies at Western Kentucky University. During his brief professional career he has participated in the construction of TMDL reports for the Panther Creek and Long Falls Creek Watersheds and site reconnaissance for the Bacon Creek TMDL. He has also participated in research related to the water industries workforce and serves as a presence for the Water Training Institute’s recruitment efforts. His present work includes aiding in the creation of a software packaged, created
careers. The results of this study prove useful in designing an effectivecross-curricular approach to the topic and in tutorial development.IntroductionPlug and play data acquisition has made experiment design and analysis much more accessible toundergraduate students. Where in the past typical lab experiences involved pre-establishedinstrumentation and cookbook exercises, a wealth of software demonstrations and librariescouple with flexible and easy-to-use hardware to allow for a relatively straightforwardintroduction to the fundamentals of the craft of taking meaningful data. As a result, the numberof publications regarding implementation in case-specific applications is staggering. See, forexample, McDonald1, Zhang et al.2, Lohani et al.3, and
AC 2012-3527: A LABORATORY-BASED, PROBLEM-SOLVING PEDA-GOGY PREPARES STUDENTS TO HIT THE JOB MARKET RUNNING!Dr. John Marshall, University of Southern Maine John Marshall received his Ph.D. from Texas A&M University and is the Departmental Internship Co- ordinator at the University of Southern Maine. His areas of specialization include power and energy processing, applied process control engineering, automation, fluid power, and facility planning.Mr. William Marshall, Alief Independent School District William Marshall is the Director of Instructional Technology and Career and Technical Education for the Alief Independent School District in Texas. He provides supervision of Program Managers in the areas of career
the complexity of issues and theinterrelatedness between their service experiences and larger social issues such as classism orracism. At this phase the individual is engaged and often becomes a strong advocate for theparticular population that they are working with. In the final phase, Internalization, theindividual has fully integrated their community service experience into their lives, to the point atwhich they adjust their lifestyle and possibly their career, to match the values system they havedeveloped through their service.Together, these three models of development and service are used to form the ProfessionalSocial Responsibility DevelopmentModel as a way of explaining thepersonal and professionalprogression through
averaging 2.4 papers per year over the last decade and a half.Figure 5 – Simulation Papers by Year Figure 6 – Lean Manufacturing Papers by YearAwareness of manufacturing, Figure 8, has to do with the image of manufacturing as a professionaldiscipline and an attractive option for students to pursue as a career. Thus papers in this realm addresswhat are normally called pipeline issues (getting students in to the majors) as well as why they shouldconsider manufacturing as a career. This has always been a point of interest and concern but the datashow much more attention was paid to it in the last decade as opposed to the previous decade. The needof manufacturing students to be competent in communication, inter-personal skills, teamwork
degree and master’s of science degree in electrical engi- neering from Morgan State University and is presently working on his doctorate degree in STEM educa- tion. Martin has worked at NASA Goddard Space Flight Center and the Nuclear Regulatory Commission (NRC) as a Power System Engineer. He has taught high school mathematics in the Baltimore City Public School System as well as mathematics at several colleges and universities. Just before coming to BDJ, Martin worked for the Maryland State Department of Education as a Regional Coordinator for Career and Technology Education, where he assisted many local school systems with their implementation and management of pre-engineering and technology programs. Martin is also
This analysis showed conclusively that the observed decrease inthe number of CPA exam-takers was not due to the 150-hour requirement. Specifically, therewas no statistically significant correlation between the 150-hour requirement and the number ofCPA exam candidates. To cite just one of many examples of data from the study: 8 jurisdictionsnever enacted the 150-hour requirement during the period 1998 to 2008. These constitute 15%of all jurisdictions; and, despite no change in the exam requirements, they experienced about20% of the total decline in exam-takers—a clear indicator that the decline was independent ofthe requirement. In seeking alternative explanations for this decline, Schroeder and Franzsuggested “ignorance about a career in
self-efficacy – Page 23.889.2listed in decreasing influence and importance: 1) Performance accomplishments or mastery experiences, 2) Vicarious experiences, 3) Verbal or social persuasions, 4) Physiological states.The combined effect of these four sources determines someone’s self-efficacy toward agiven task.2 A number of studies of self-efficacy in engineering have been conducted.3-12Of particular importance is Quade’s study, which developed an instrument to measureproblem-solving, computer troubleshooting, career encouragement, satisfaction withcollege major, career exploration, and course anxiety.6 The analysis revealed gains
, and electronics testing.Telecommunications graduates performed similar functions, but specifically for traditionaltelephone service providers. Since then, there has been an evolving shift in the career paths ofElectronics and Telecommunications graduates. Today, even though the graduates take positionsworking for small to large companies that span a broad range of market sectors includingautomotive, medical, oil and gas, quality of life, telecommunications, and semiconductormanufacturing; one can see a common thread in their duties and responsibilities. Most studentsare hired to support one or more aspects of electronic product and system development. To a large degree, this can be attributed to the dramatic change in the faculty
students who are working can more easily relate to ethical issues, can sense the interpersonalissues involved and can sort out the responsibility lines. Typically, these students enter college fiveto fifteen years later than the traditional students, work full time in industry, and invest five to tenyears earning an A.S. degree. For instance, they pick up well on the career implications of mostethical dilemmas. They bring to the classroom an appreciation for the pressures in the industrialworld and the methods used to cope with them. The younger students, in general, try to follow atypical textbook approach in their course of action, and then come up with a solution, which,although correct in theory, sometimes would not go over well in a real